9C-14.7456MEEJ-T

Crystals are one of the oldest and most common materials used in electrical engineering. They are used to provide an electrical connection between two points in a circuit. The 9C14.7456MEEJ-T crystal is an example of this technology, and it is widely used in a variety of electronic applications.

The 9C14.7456MEEJ-T crystal is a small quartz-based component that is produced using a process known as hydrothermal growth. This process involves heating and cooling quartz to produce single crystals, which are typically cut and shaped into rectangular bars or plates. The crystal has a resonance of 14.7456MHz and can operate up to 70MHz.

The crystal is constructed of three primary sections: the base, the shield, and the base-plate assembly. The base is composed of an oscillator circuit and two electrodes. The electrodes are typically made out of metal or ceramic. The oscillator circuit contains an amplifier, a feedback capacitor, and a quartz crystal. The shield is generally made out of metal or plastic, and is designed to reduce electrical interference.

The base-plate assembly of the 9C14.7456MEEJ-T crystal is composed of two metal plates, connected via two screws. The two plates are separated by a dielectric material, normally ceramic. The assembly serves as an electrical connection between the crystal and the two electrodes.

The 9C14.7456MEEJ-T crystal is used in a variety of electronic applications. It can be used in oscillators, timers, and frequency counters. It is also often used in digital oscillators and microprocessors. It is most commonly used in radio frequency circuits, but can also be used in audio frequency circuits.

The working principle of the crystal is based on the fundamental properties of quartz crystals. Quartz is a piezoelectric material, meaning it has the ability to generate an electrical voltage when subjected to a mechanical stress. When the 9C14.7456MEEJ-T crystal is connected to electrical power, the oscillator circuit is activated, causing the two electrodes to oscillate back and forth. The mechanical stress on the quartz crystal generates an electrical voltage, which is then used to drive the oscillations.

The electrical oscillations of the 9C14.7456MEEJ-T crystal can be used in a variety of applications. The frequency of the oscillations can be controlled by adjusting the capacitance of the feedback capacitor, allowing the crystal to be used in a wide range of applications. The oscillations produced by the crystal are also used to control the rate of frequency counters, timers, and other digital devices.